Perimeter Security System

Infinity 2000 PRODUCT MANUAL

Integrated Security Corporation 2550 Oakley Park Rd.

Suite 100 Walled Lake, MI 48390

www.integratedsecuritycorp.com

Phone: (248) 624-0700 Toll Free: 800-875-4349

24-Hour Fax: (248) 926-9070 Table of Contents

Section I: Software 1.1: Software Overview Introduction Locating An Intrusion: Map Screen Software Adjustable Sensitivity Zone Set Up Options Scheduler The Alarm Screen Voice Alarm Announcement Custom Response Information For Each Alarm Data Log: Print out and Disk Record Multi-Level Password Protection Remote Site Operation 1.2: ISC DOS Software 1.3: ISC Products Range ISC Infinity 2000 Remote Version

Stand Alone Version 1.4: ISC Peripherals

S-10/M Sensor Line WX-75M Weather Station Section II: Hardware Theory of Operation

2.1: Basic Principles of Operation Infinity 2000

Figure 1: Multi-Zone Chain Link Fence Application Sensor Cables System 9000 Processor Electronic Monitoring Terminations WX-75M TM Weather Unit

2.2 Processor Theory of Operation Figure 2: 24-Zone Processor Unit Figure 3: Processor Controller Module Block Diagram Figure 4: Processor Transponder Module Block Diagram Transponder Module Intrusion Circuitry Supervision Sensor Cable Supervision Tamper Circuitry Power Supply Audio Option Transponder Module Theory of Operation Transponder Communications Communication Protocol Figure 5: Address Switch SW1 Location Data Communication-Electrical Alarm/Tamper Status Monitoring Self Test Output Control Transponder Operation

Section III: Processor Installation Procedure 3.1 General 3.2 Processor Unit Installation Overview 3.3 Processor Electrical Connections Processor Unit Grounding Connecting the AC Power Connecting the Backup Battery Installing Zone Input Cables Addressing the Transponder Card Connecting the Central Computer Communication Cable WX-75M Weather Station Installation Alarm Relay Output Connections Section IV: Cable Installation Procedure 4.1 Sensor Cable Installation Introduction Requirements for Installers Installation Layout Chain Link Fence Sensor Cable Installation 4.2 Perimeter Fence Corner Areas 4.3 Slide Gate Installation Figure 1: ISC Slide Gate Transfer Assembly 4.4 Concertina/Barbed Tape Sensor Cable Installation 4.5 Other Media Sensor Cable Installation 4.6 Termination Devices 4.7 Junction Devices Section V: Engineering Specification – ISC Infinity 2000 PART 1: General

5.1.1 Introduction 5.1.2 System Description

PART 2: Products 5.2.1 Central Monitoring Computer System

5.2.2 System Processor 5.2.3 Sensors And Sensor Cable 5.2.4 Meteorological Assembly 5.2.5 General

Section VI: System Test and Checkout 6.1 Introduction

6.2 Requirements for Installers 6.3 Sensor Cable Tests Visual Inspection Discontinuity Test Continuity Test

Perimeter Security System

Infinity 2000 PRODUCT MANUAL

Section I: Software

Section I: Software 1.1 Software Overview

Introduction ISC perimeter intrusion detection systems are unique in the security market. Their reliability, efficiency and the features they offer are unmatched. This is in part due to the innovative nature and high quality of their hardware products, but also owes a lot to the advanced nature of their specialized software. ISC’s software development team has designed all of ISC’s system management software. It is matched perfectly to the hardware aspects of the system and allows total control of the security of a site from the comfort of a control room. One of the pioneering advances of ISC's technology is the ability to control fence zone sensitivities and other parameters from the central computer. Other fence mounted systems require a technician to be sent out to the fence itself to make minor adjustments to the operation of the system. All ISC system functions are user adjustable from the central computer keyboard. In the event of a need to alter any of the system settings, such as arming or disarming a zone or adjusting sensitivity, the end-user can easily do this from the central computer keyboard. No field adjustments required. Software control of security systems is the future of security technology. The unparalleled control it offers the user is invaluable. ISC is at the forefront of this field. Below you will see how this expertise can allow you to gain better control of your security situation.

Locating an intrusion: Map screens Each site which has an ISC Infinity 2000 installed has a custom-made color computer map which is normally displayed on the central computer screen. It will show, or exclude, any details that the customer requires, including details that will assist response teams to reach the scene. Fence zones, or other alarm zones are displayed along with their status. In the event of an alarm, the relevant zone on the map screen begins flashing red, and a custom digitally synthesized audio voice announcement will sound to alert security personnel. In addition, CCTV cameras can be automatically targeted to the alarmed zone and the video displayed on the central monitoring computer screen.

ISC perimeter zones are extremely flexible in terms of size and number. There is no minimum zone size should a certain section of the perimeter require extra accuracy in locating an attempted intrusion. The maximum zone size can be up to 15,000 feet, so a perimeter as large as a national border can easily be protected. Each host PC has the ability to support an unlimited number of zones; thereby making the system easily expandable. The Infinity 2000 has the ability to identify the point of an attempted intrusion or escape on an accurate map in front of the officer on duty, which allows a much more rapid and accurate response. Auto-targeting CCTV cameras is easily accomplished and can be made to display the site of the intrusion automatically on the same central computer monitor as the site map allowing easy access to the video image. The Infinity 2000 can communicate to camera controllers via a serial port on the PC, with no relays required, or with contact relays to the camera controller. Pan/Tilt/Zoom controls are available on the central computer touch screen monitor.

If a site is large, more complex or involves a number of remote sites, the computer can "zoom in" on designated areas of the site, giving a more accurate picture of the attempted intrusion. The ISC system can monitor more than the perimeter fence. It can also monitor the security devices in the buildings themselves (magnetic switches, passive infra red). In the event of the main screen showing an alarm in a building, the guard can zoom in onto a floor plan of that building and display the room in which the alarm has occurred. Other alarm sensors, such as smoke detectors can be incorporated and would allow the exact location of a fire to be identified.

Software Adjustable Sensitivity One of ISC's special features is the ability for an end-user to easily change the sensitivity characteristics of the system's configuration. Every area of a site is different and, in order to eliminate false alarms, must be uniquely adjusted to the local conditions. ISC's shock-vibration technology allows advanced computer analysis of the incoming signals, and allows varying of the sensitivity from the central computer keyboard. Every zone is totally independent and can be adjusted separately. Thus, zones that are subject to more environmental disturbance are given a slightly higher alarm threshold. Any attempt to climb or cut the fence is still easily detected, and disturbances that might otherwise create a false alarm are screened out. ISC's integral weather station is one of its most important components. By allowing for meteorological disturbances, weather induced false alarms are virtually eliminated. The weather

station continuously updates the system software with details of wind speed and precipitation intensity so that the system is always perfectly adjusted for the current conditions. Wind and precipitation compensation factors can be fine tuned for each zone simply by pressing a few buttons on the central computer keyboard. For instance, if a section of the site is subject to a wind tunneling effect, its wind compensation can be raised, virtually eliminating weather induced false alarms.

Zone Set Up Options Any zone can be configured in one of seven states; Alarm, Event, Conditional, Dual, Trigger, Remote Event and Remote Conditional. In the "ALARM" state, any alarm condition in that zone will cause the system to report that an alarm has occurred. This is the default setting and would be used for, among other things, the majority of the perimeter fence. In the "EVENT" state, a condition that would ordinarily create an alarm is recorded, but does not produce an alarm response. For instance, a gate that is used with an access control system for authorized access can be set as an EVENT zone. The system data log maintains a record of every authorized access, along with the date and time that it occurred, but no alarm will be reported if a valid card read has been obtained. Unauthorized gate openings will cause an alarm condition. The "CONDITIONAL" status is used for zones that are normally in an alarm state, but may be accessed without alarm if an adjacent zone has experienced an authorized entry. Most often, conditional zones would be used on either side of a gate to prevent the vibrations set up by the opening and closing of the gate from creating an alarm. Disturbance of the fence at any other time would produce an alarm. The time period between the EVENT zone access and the CONDITIONAL zone returning to alarm state is user definable via software from the central computer keyboard. The "DUAL" alarm state is an alarm condition that would require two zones to be alarmed during a software programmable time period to cause an alarm to be generated at the central monitoring computer. This alarm state would be used in the event an interior microwave zone and a perimeter fence zone would have to be alarmed during a preset time period in order to register an alarm condition at the central computer. Both alarms will be recorded as "Events" on the computer data log, however, an alarm condition will not be displayed on the central computer unless both zones are alarmed during a preset time period. The "Trigger" alarm type is used in conjunction with the "Dual" alarm state to act as the trigger zone that must be alarmed in conjunction with the "Dual" zone, to generate an alarm condition at the central monitoring computer. The "REVENT" alarm type defines a "Remote Event" alarm that is similar to the above mentioned "Event" type alarm condition except that the event processing takes place at the remote site processor and is not recorded on the central computer data log. An "Event" can be a valid card read from an access control card reader to open a gate without generating an alarm condition.

The "RCOND" alarm type defines a "Remote Conditional" alarm that is similar to the "Conditional" alarm type mentioned above except that the conditional alarm processing is done at the remote site processor and is not reported to the central monitoring computer.

Scheduler The Infinity 2000 software provides a scheduler for automatic arming or disarming of zones during specified time periods and dates. For instance, if a gate or door requires it to be disarmed from 8:30am to 5:00pm Monday through Friday, the system software does this automatically.

The Alarm Screen In the event of an alarm, the "Alarm Screen" gives details of the location and type of alarm. In addition to zone alarms, the system also recognizes four other alarm states. Power Failure: In the event of main AC power fail. Tamper Alarm: In the event of the processor box or field transponder enclosure

being opened to expose the ISC system electronics. Transponder Comm. Alarm: In the event of a field transponder power failure or the processor

controller card being unable to communicate with the field transponder.

Controller Comm. Alarm: In the event the central computer being unable to communicate with the processor controller card.

On the site map screen, these alarms would appear wherever the relevant hardware is situated.

Once the control room is alerted to an alarm, the user can bring up the alarm screen by using a computer mouse to click on the flashing red alarm zone, or if a touch screen monitor is used the operator simply touches the flashing alarm zone on the touch screen monitor. The Alarm Screen displays details on the alarm location and nature (e.g. zone alarm, power failure etc.). The user can acknowledge the alarm and silence the digital voice announcement, but the zone remains in alarm until the cause is investigated and the user ascribes a "cause" for the alarm. The clearing of the alarm with a user-defined cause is automatically entered in the data log, along with the times and dates each action was taken. This prevents staff from simply acknowledging alarms and not investigating them, without supervisors becoming aware.

Voice Alarm Announcement The Infinity 2000 comes with a built in, high quality digitally recorded audio announcement for each alarm. The customer can specify exactly what announcements should be made for zone alarms as well as the language and response information. Far better than a simple bell or buzzer, the voice announcement will immediately inform everyone in the control room exactly where an alarm has occurred so that the correct action is taken sooner.

Custom Response Information For Each Alarm

In addition to the voice announcement of the alarm the Infinity 2000 software displays on the central computer monitor custom response information for each alarm. This information is vital in assuring alarms are responded to properly.

Data Log: Print out and Disk Record The ISC Infinity 2000 records all system events on a hard disk data log as well as an on-line printout. Details recorded with time and date include:

Log on times: User's ID number, correct/incorrect password entry. System settings at log on: Zone status, sensitivities, and wind/rain compensation. System setting alterations: Sensitivity, zone status, arm/disarm/access

Zone Types: "Events" and "Conditional" events Zone Alarms: Zone number Alarm Time: Time of alarm acknowledgement Alarm Clear Time: Time alarm investigated User Log Times: Time users Log In/Out The data log can be sorted on any field, date, time, etc., to generate custom reports on all alarm activity.

Multi-Level Password Protection ISC systems offer multiple password entry levels. The customer can define exactly what access levels are granted for each user. Super Users and Supervisors can at any time change the access of any user in a class below theirs, but cannot give anyone a higher access than they themselves hold. For each of the software functions, a user may have full read/write access, read only access or no access.

Remote Site Operation ISC engineers are specialists in the field of remote site operation. With the Infinity 2000, one control station can monitor and control unmanned or lightly manned sites anywhere in the world. In the event of an alarm at a remote site, the base station is informed immediately and reacts exactly as if it were monitoring a local site. The main map shows which location is the origin of the alarm, and the user can zoom in to display a map of that particular site and show which zone is in alarm. The computer map and the voice announcement give the location of the site and the zone within the site. The Infinity 2000 system does not just monitor the remote sites, it can also control them and alter any of the system settings, just as if they were local hard wired sites. Thus, sensitivities, arming/disarming etc can be adjusted in the usual way. It is a true total remote control system.

The remote link can be via any communication medium. This system allows truly world wide remote capability; a system in London could control a site in Hong Kong. The Infinity 2000 can also utilize microwave transmitters, satellite or any other form of communication.

1.2 ISC Products Range ISC perimeter protection systems, ranging from the full PC based site security monitoring systems of the Infinity 2000, to the Remote version with network and or fiber capabilities and the Stand Alone version that provides output contacts to other site monitoring systems.

ISC Infinity 2000 The ISC Infinity 2000 is the basic, full feature site monitoring scheme. It provides total software control via a supplied PC. The Infinity 2000 offers: Color graphic site display

Maps based on customer supplied site maps. Optional zoom screens available. Full multi level password control Initial settings to customer's requirements, subsequently user alterable. Disk data log Backup capability, plus on-line print out of events. Digital voice alarm announcements

Wording, language etc. to customer's requirements. One message for each zone or other alarm state.

Software variable sensitivity and zone status All zones can be armed and disarmed from the computer (providing appropriate password access has been achieved). ISC sensor zones are independently adjustable for varying sensitivity levels. Automatic weather compensation factors are also independently variable for each zone.

The system hardware consists of: Host computer: Pentium Processor E5300 (2.60 GHZ,2M,800MHZ FSB) with 2GB DDR2 Non ECC SDRAM, Integrated Video, Intel GMA 4500, 80 GB SATA Hard Drive/8MB Databurst Cache, 8X DVD-ROM and color VGA Flat screen Monitor. Processor: Controller and transponder cards, housed in NEMA or metal cabinet. 110/220/240VAC with 24VDC battery backup, tamper alarm. Connection from the PC to the controller is via RS-232 communication. Although transponders are usually housed in the processor cabinet, field transponders can be installed at different locations on the site if required. Connection from controller to transponder is via RS-485 communication. Each transponder's 8 alarm zones can consist of a combination of ISC fence sensors or any other alarm device such as passive infrared or microwave barriers.. In addition to the transponder's output to the controller, there are relay outputs for driving external devices. There are a total of 12 relays per transponder card. Each zone has a relay output, plus one power alarm, one tamper alarm, one communication alarm and one general alarm output. Zones connected to ISC S-10 sensor line are all independently adjustable for sensitivity at the PC monitoring station on a scale of 1-254.

Each S-10 fence zone can have a maximum length of approximately 15,000 feet, with no minimum zone length. When connected to the WX-75M weather station, wind and precipitation is automatically taken into account in the determination of an alarm condition. Fine-tuning is achieved by variation of the wind and precipitation compensation factors.

Remote Version The Infinity 2000 is available in a remote networked version. The system operates any communication link. All the functions of the Infinity 2000 are available on the remote version including site maps, zones status control and sensitivity adjustment. The Infinity 2000 can control multiple remote sites, and monitors all phone lines for disruption.

Stand Alone Version The Infinity 2000 is available in a stand-alone version supplying relay outputs to other site monitoring systems. The stand-alone version allows full software control of the system, including zone sensitivity function for fine tune calibration, which contributes to ISC’s outstanding low false alarm rate. The stand-alone version is supplied on a laptop computer and can be folded and stored out of the way when access to the software is not required.

1.3 ISC Peripherals

S-10 Sensor Line This is one of the breakthroughs that put ISC at the front of the perimeter security field. The ISC S-10 sensor line comes supplied with permanently attached S-4 sensors. Shock-vibration detection technology puts ISC way in front of micro phonic systems in terms of reliability and false alarm rate. The multi-axis sensor detects any amount of movement in any direction and passes data back to the processor for analysis. The S-4 sensor is housed in a UV resistant, injection molded assembly, weather sealed with MIL SPEC #A-46146 RTV. EMI and RFI protected, the sensor internal gold plated self-cleaning contacts are Mil Spec and the unit is entirely maintenance free.

WX-75M Weather Station Weather induced false alarms are all but eliminated as the system automatically compensates for environmental disturbances by analyzing signals from ISC's own weather station. An anemometer indicates wind speed, while an ingenious system for quantifying the effect of precipitation on fence sensor line sends complex weather data to the processor. The WX-75M can be fitted to any of ISC's systems with dramatic results.

ISC

DOS Software User Guide

Introduction Integrated Security Corporation (ISC) provides a reliable method for intrusion detection and sensitivity adjustment via the Infinity 2000 Application. False alarms are minimized by utilizing a field mounted weather station along with a proprietary firmware algorithm to compensate for the forces acting on the sensor caused by wind and rain. The ISC Application allows the user to monitor site Perimeter Zone and ISC Processor Activity, as well as, configure Perimeter Zone settings. The communication link between the PC and ISC Controller Card is RS-232. The Weather Station and Tamper Switch are also connected to the Controller Card. The Controller Card takes current wind and precipitation readings into account to minimize false alarms based on these forces. The tamper switch is provided to alert personnel of unauthorized entry into the ISC Processor Enclosure. Up to eight fence zone sensor inputs are available per Transponder Card. As the zone requirements grow, Transponder Cards are daisy chained via RS-485 communication links. A relay contact output is available for each one of the sensor zone inputs to provide a contact closure for 5 seconds when the appropriate zone is in alarm. Note that other relays are on board which give status with respect to Power Failure, Communication failure, Tamper Alarm, and a General Output which is energized when 1 or more zones are in alarm..

ACI_BLAS: MS-DOS Overview

ACI_BLAS is the DOS application used for monitoring and interacting with the sites ISC Perimeter Security System. This application uses simple keyboard function key controls to access various software functions.

GUI – Main Site Map

The Main Site map screen provides a graphical user interface (GUI) illustrating the plan view of the site along with zone layout location and state information. A solid green zone state indicates a Secure - no alarm condition. There are three zone alarm types possible: Alarm, Short, and Open. Zones can be individually placed in two other Status states aside from the Secure state: Disarm and Access. In the Disarm state all zone alarm reporting is suppressed, while a zone placed in the Access state suppresses all alarms except the Open condition. A solid white zone state for that zone indicates an Access or Disarm state. When a zone alarm is active a flashing yellow to red state for that zone is present. This is also accompanied by an audio cue (a beep in the case of this application). The balance of alarms include: Controller Communication Failure, Transponder Communication Failure, Power Failure (AC Power Fail / Battery Fail), and Tamper Alarm. In this example, when any of these are active the Guard Shack icon Flashes to red.

Log In / Out A simple Password Screen is provided to allow authorized personnel to access to the application.

Initialization Upon application startup an initialization string is sent to the Controller card which begins the downloading of hardware, zone setup, and zone status settings.

Main Menu

Alarm Screen

Active alarms are listed in the in queue form as they occur. Pertinent active alarm information includes: address (zone input number), description, and time and date stamp information. At

this point the user has two further actions to take: Acknowledging and Clearing the alarm. Referencing the figure below, the user selects the alarm and hits the “Enter” key on the keyboard to Acknowledge the alarm. This action maintains the flashing GUI state on the Site Map, but quiets the audio annunciation.

Acknowledge / Clear Alarms

Once the alarm activity had been investigated and the alarm cause had been identified the user will attempt to Clear the alarm. Referencing the figure below, the user selects the alarm and hits the “Delete” key on the keyboard to Clear the alarm. This action will prompt a pop-up menu box of Alarm Causes which upon selection will be entered into the Data Log. Reference figure below:

Zone Setup Any zone can be configured in one of seven Types:

ALARM – In the Alarm type, any alarm condition in that zone will cause the system to report that an alarm has occurred. This is the default setting and would be used for the majority of the perimeter fence. The Period setting designates how long (in seconds) the Open or Short Alarm condition has to be active before it is reported:

EVENT – In the Event type, a condition that would ordinarily create an alarm is recorded, but does not produce an alarm response from a GUI standpoint. For instance, a gate which is used for authorized access can be set as an Event zone. The system data log still maintains a record of every authorized access, along with the date and time that it occurred. From a hardware standpoint the zone relay outputs still maintain the operation of an Alarm type. Reference figure below:

CONDITIONAL – The Conditional type is used for zones which are normally in an alarm state, but may be accessed without alarm if an adjacent zone has experienced an authorized access. Most often, conditional zones would be used on either side of a gate to prevent the vibrations set up by the opening and closing of the gate from creating an alarm. Disturbance of the fence at any other time would produce an alarm.

For example, Zone 1 is set to be Conditional on Zone 2. So if Zone 2 is in an alarm state and a Zone 1 alarm state becomes active inside the 10 second time period – the Zone 1 Alarm will not be reported by the application. Translating this to a real world example, Zone 2 would be a gate, while Zone 1 would be an adjacent fence panel. This ensures that the disturbance of opening the gate will not trigger the adjacent fence panel to go into alarm. Note, that although the application does not report the Zone 1 alarm in the alarm screen it is still write it to the log and turn on the appropriate alarm relay. Reference figure:

DUAL – The Dual alarm type is an alarm condition that would require two zones to be alarmed during a software programmable time period to cause an alarm to be generated at the host. This alarm state would be used in the event an interior microwave zone and a perimeter fence zone

would have to be alarmed during a preset time period in order to register an alarm condition at the host. Both alarms will be recorded as “Events” on the computer data log, however, an alarm condition will not be displayed on the central computer unless both zones are alarmed during a preset time period. TRIG - The Trigger alarm type is used in conjunction with the Dual alarm type to act as the trigger zone that must be alarmed before the “Dual” zone, to generate an alarm condition at the host. For example, Zone 1 is set to a Dual type, triggering on Zone 2 with a period of 10 seconds. That is, if both Zone 1 and Zone 2 are in an alarm condition within 10 seconds a Zone 1 alarm is reported. See example below:

REVENT – In the Revent type defines a “Remote Event” alarm that is similar to the above mentioned Event type alarm condition, but is not recorded on the host data log. Also, the zone relay outputs do not change regardless of the zone alarm state.

RCOND – In the Rcond type defines a “Remote Conditional” alarm that is similar to the above mentioned Conditional type alarm condition mentioned above except that the conditional alarm processing is done locally at the processor and is not reported to the host. Relating back to the previous Conditional example, if Zone 2 is in alarm and Zone 1 goes into alarm within the 10 period setting the Zone 1 alarm reporting is suppressed. However, the Zone 1 alarm is not written to the data log and the relay is not energized unlike the Conditional type.

Zone Status

The Zone Status screen allows the user to configure individual zones for Status State, Zone Sensitivity, and Precipitation / Wind Sensitivity. STATUS – Recall that the default Status is Secure. In this state all alarm conditions are reported. Conversely, when a particular zone is put in the Disarm state reporting of all alarms conditions is suppressed. The Access state is provided to suppress the reporting of the Zone Alarm and Zone Short alarm conditions, but allowing Zone Open alarms to be reported. Site personnel use this feature short term for authorized gate activity as a way to minimize nuisance alarms - with the advantage of knowing if any tampering occurs by a physical cut in the sensor line. (Zone) SENSITIVITY – This unit value ranges from 1 to 200. The zone sensitivity essentially equates to how long an alarm condition is active before it is reported. This can be related to real world conditions by considering slight taps to the sensor body. With a zone sensitivity setting of 200 only 1 tap to the sensor might yield an alarm condition. Whereas, a zone sensitivity setting of 1 may require 50 or so taps to the sensor before an alarm condition is generated. This, of course, is dependent on the magnitude of the tap. PRECIP / WIND SENSITIVITY – This unit value ranges from 1 to 100. The Controller Card is constantly monitoring site wind speed and rain intensity via the field mounted Weather Station. A proprietary algorithm in the Controller Card firmware minimizes nuisance alarms caused by the forces of weather by moving it away from an alarm condition that would have otherwise been produced without this compensation. The higher these values are set the more the compensation for the same given wind speed or rain intensity. Default sensitivity values are 10 for Precipitation, and 15 for Wind.

Data Log Automatically logs alarm activity, system settings and changes, alarm causes, user information, and date and time stamp.

Change Password The System Administrator manages access to the application users by assigning access levels and passwords.

Select Enter to bring up the following window.

1 Select Enter and add new user ID at the bottom of the screen 2 Select Enter and the new User ID will now be at the top of the screen highlighted 3 Use the right arrow to move the red highlight to Password 4 Select Enter and add new user Password at the bottom of the screen 5 Press Escape until you reach the main menu. 6 Log out then test the user ID and Password

ID & Password Allows for Super User password maintenance.

Set Time/Date Simply allows the user to set the current time and date:

Notepad Allows the user to document miscellaneous notes daily:

Periodic COM Check Allows the user to setup a periodic communications check.

Data Log

Exit Users depress the Exit key to quit the application.

Perimeter Security System

Infinity 2000 PRODUCT MANUAL

Section II: Hardware Theory of Operations

Section II: Hardware Theory of Operation

2.1 Basic Principles of Operation The ISC Infinity 2000 is a security monitoring and control system capable of total facility security management. The Infinity 2000 will reliably protect fences of chain link or welded mesh construction, concertina wire and all types of gates. The Infinity 2000 can be used to monitor indoor building alarms or outdoor perimeter applications.

Figure 1 illustrates a typical multi-zone chain link fence application. The ISC Infinity 2000 is composed of a few main elements that are described in the following paragraphs.

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THE CONTROLLER AND TRANSPONDER CARDS COMMUNICATE

WITH EACH OTHER via RS-485. THE CONTROLLER AND THE CENTRAL MONITORING COMPUTERCOMMUNICATE via RS-232.

PROCESSOR ENCLOSURE

ISC SENSOR

INSENSITIVE LEAD CABLE

Figure 1: Typical Multi-Zone Wiring Chain Link Fence Application

Sensor Cables The protection of a secured perimeter by the ISC Infinity 2000 is obtained by the sensor cables that are installed along the entire length of the protected perimeter. These sensor cables are highly sensitive to mechanical disturbances. If a potential intruder attempts to cut, climb over or penetrate a fence or breakthrough a wall on which the ISC sensor cables are mounted, then mechanical stresses in the fence or wall result in slight voltage changes in the sensor cable. These changes in the electrical characteristics of the sensor cable produce the alarm condition. This is detectable as a difference in potential at the sensor cable input to the transponder module of the processor unit. The Processor unit continually processes and evaluates the electrical activity of the sensor cable. This processing circuitry will detect attempts to cut, climb or tamper with the security perimeter.

Infinity 2000 Processor Electronic Monitoring The Infinity 2000 processor continually evaluates the electrical activity of the sensor cable. The processing circuitry of the processor unit will detect an attempt to "climb over", "cut" or "tamper" with the secured perimeter if -

• An electrical signal greater than or less than a preset amplitude is detected in the sensor cable.

• The signal is present for a minimum time (software adjustable). • A predetermined (software adjustable) number of increments, depending

on the sensitivity settings, are detected within a preset minimum time period, by the transponder card microprocessor circuitry.

If the circuitry detects either a cut-through or climb over attempt on the secured perimeter, then it will immediately initiate an intrusion alarm.

Terminations The Infinity 2000 perimeter sensors have a DC "supervision" circuit to detect shorting or cutting of the sensor cable. At the end of the sensor cable opposite to the control unit there is a termination device. The standard terminator is a 4.7K-ohm resistor. These devices allow for a small DC current to flow through the cable and to be monitored by the supervision circuit of the processor unit. If the sensor cable is cut or shorted, then the cable voltage drop will change. This is detected by the processor unit, which will immediately initiate an alarm.

WX-75M Weather Unit The Infinity 2000 includes a weather station to detect adverse weather conditions. This fully integrated monitoring subsystem detects any environmental changes resulting from wind and precipitation and supplies the necessary data to the system processor. Based on this continuously updated flow of information, the field processor constantly adjusts the sensor operating parameters to minimize generation of environmentally induced false alarms.

2.2 Infinity 2000 Processor Theory of Operation Figure 2 is an illustration of a 3 transponder, single controller, 24-zone processor unit. There are 2 different kinds of electronic control modules within the processor unit, they are the Controller and Transponder modules. Figure 3 is a block diagram of the processor Controller module, and Figure 4 is a block diagram of the processor Transponder module.

Figure 2: Typical 24-Zone Wiring Diagram

SW1

6 5 4 3 2 1

ON

OFF

TRANSPONDER

CARD 1

ZONE-

1

OUT 1

OUT 2

OUT 3

OUT 4

OUT 5

OUT 6

OUT 7

OUT 8

GENERAL

(TB4 - R

ELAY

OUTP

UTS

)

LED

ZONE-

2

ZONE-

3

ZONE-

4

ZONE-

5

ZONE-

6

ZONE-

7

ZONE-

8

SW1

6 5 4 3 2 1

ON

OFF

TRANSPONDER

CARD 2

ZONE-

9

OUT 1

OUT 2

OUT 3

OUT 4

OUT 5

OUT 6

OUT 7

OUT 8

GENERAL

(TB4 - R

ELAY

OUTP

UTS

)

LED

ZONE-

10

ZONE-

11

ZONE-

12

ZONE-

13

ZONE-

14

ZONE-

15

ZONE-

16

SW1

6 5 4 3 2 1

ON

OFF

TRANSPONDER

CARD 3

ZONE-17

OUT 1

OUT 2

OUT 3

OUT 4

OUT 5

OUT 6

OUT 7

OUT 8

GENERAL

(TB4 - R

ELAY

OUTP

UTS

)

LED

ZONE-18

ZONE-19

ZONE-20

ZONE-21

ZONE-22

ZONE-23

ZONE-24

ISC

ISC

ISC

ISC

ISC

ISC

ISC

ISC

ISC

ISC

ISC

ISC

ISC

ISC

ISC

ISC

ISC

ISC

ISC

ISC

ISC

ISC

ISC

ISC

+15-30

V

GND.

BAT

. IN

GND. WIN

D

RAI

N

TAMP.

+15V

+12V

GND.

SPA

RE

+-GND.

RAIN

WIN

D

GND.

TAMPE

R

TB2

RS-485

SW1

6 5 4 3 2 1

ON

OFF

9005

02

CONTR

OLL

ER CARD - 1

(INPUT ONLY)

OUTP

UT

ONLY

(

POWER

IN

TB1

POWER

OUT

LED

TB4

CR2

CR1

SPAR

E

SPAR

E

BAT. M

ON.

P.S. M

ON.

SPAR

E

TB3

MONITOR

(WPI

D-C

ONN

RED

TO C

OMPUTE

R

BLACK

WHITE

GREE

N

YELL

OW

BLUE

ORAN

GE

PURPL

E

BROWN

RED

BLACK

WHITE

GREE

N

YELL

OW

BLUE

ORAN

GE

PURPL

E

BROWN

RED

BLACK

WHITE

GREE

N

Y ELL

OW

BLUE

ORAN

GE

PURPL

E

BROWN

ISC PROCES

SOR

ZONE 17

ZONE 18

ZONE 20

ZONE 21

ZONE 22

ZONE 23

ZONE 24

4.7k

4.7k

4.7k

4.7k

4.7k

4.7k

4.7k

4.7k

ZONE 19

ZONE 1

ZONE 2

ZONE 4

ZONE 5

ZONE 6

ZONE 7

ZONE 8

4.7k

4.7k

4.7k

4.7k

4.7k

4.7k

4.7k

4.7k

ZONE 3

ZONE 9

ZONE 10

ZONE 12

ZONE 13

ZONE 14

ZONE 15

ZONE 16

4.7k

4.7k

4.7k

4.7k

4.7k

4.7k

4.7k

4.7k

ZONE 11

Figure 3: Processor Controller Module Block Diagram

Figure 4: Processor Transponder Module Block Diagram

Transponder Module Upon receipt of a signal from the sensor cable, the Transponder module processes the signal from three different parameters. These parameters form the "signatures" for any intrusion attempt. They are - • Frequency • Amplitude • Time Duration

Signals received from the sensor cable pass through an amplifier, an RC network and are then sent to the microprocessor. This filtered and amplified signal is analyzed by the microprocessor circuitry to evaluate it for the presence of the signatures that correspond to attempts to climb over or cut through the security perimeter.

Intrusion Circuitry The sensor line input is sent through an amplifier to obtain a definite high/low signal. This signal is in the form of an electronic pulse with a duration that depends upon the disturbance. If the intrusion signal is of short duration, such as would occur when the wire mesh on the fence is cut, then a software adjustable timer is incremented, depending on the zone sensitivity setting and the amplitude of the signal. The selected time frame is the limiting interval for the cumulative monitoring activity of the alarm circuitry. If sufficient disturbance occurs during the time window selected, the software reaches a threshold level and creates an alarm condition. All sensitivity settings are software adjustable from the central monitoring computer keyboard. No field adjustments are required. All zone sensitivity settings are individually adjustable by zone. The Infinity 2000 also has software adjustable wind and precipitation compensation settings individually by zone from the central computer keyboard. No field adjustments required.

Supervision The capabilities described here ensure that if either the sensor cable is cut or shorted, an alarm will be activated. Each zone is separately supervised.

Sensor Cable Supervision The sensor cable is terminated by a 4.7K-ohm resistor that forms a voltage divider with a resistor on the Transponder module in the processor unit. This causes the output of the preamplifier to be approximately +2.3 volts DC, which is the reference voltage. The DC supervision circuit contains a window comparator that compares the preamplifier output to the reference voltage. As long as the preamplifier output is +2.3 volts DC, no alarm will occur. If the sensor cable is cut or shorted, then the 2.3 volt level will change, and an alarm will be initiated.

Tamper Circuitry A "tamper switch" is mounted on every processor enclosure. If the processor enclosure is opened (to expose the electronics), then the tamper switch becomes an open and a tamper alarm is immediately initiated. A relay output is provided for the tamper alarm. The central monitoring computer will display a tamper alarm. The tamper switch is a three-position switch that can be placed in a non-alarm mode when the control unit is being serviced. Local tamper circuitry is available for each Transponder module in the event the Transponder module is placed in the field remote from the processor. The Transponder module also supplies a relay output closure in the event a tamper alarm is initiated at the remote transponder enclosure.

Power Supply The Infinity 2000 processor power supply obtains 120 volts AC from an external power source. This voltage is bridge-rectified and regulated to provide an operating voltage of +24 volts DC. The processor Controller and Transponder cards further regulate the +24 volts DC to provide output voltages of +12 VDC and +5 VDC. DC output voltages of +12 VDC and +5 VDC are provided at the Controller and Transponder modules for powering external security related peripherals. The power supply also provides a float charge for the optional backup battery. This is set at +24 volts with a current limited to approximately 500 ma. A red LED will illuminate on the Controller and Transponder modules to indicate the power is normal. An alarm will be initiated upon loss of +24 VDC to the Controller or Transponder modules.

Audio Option The Infinity 2000 central computer provides a custom digitized audio annunciation of an alarm condition. The wording and language of the alarm annunciation message can be customized to the customer’s requirements.

Transponder Module Operation The Infinity 2000 Transponders are alarm monitoring and communication devices that typically communicate with some higher level system element. The Transponders receive and execute commands, and transmit the status of monitored devices.

Transponder Communications Transponders communicate via RS-485 communication. Repeaters are available for distances greater than 4000 feet if Transponders are remotely located in the field.

Communication Protocol Communication to a Transponder is done in a standard UART serial bit format. The Transponders are uniquely addressable devices that remain passive until they receive their own address. A dipswitch on the Transponder printed circuit board sets the address. Refer to Figure 5 to locate address switch, SW1. Transponders are communicated with by polling. That is, the higher level system or Controller module transmits a poll message. The polled Transponders respond with a response and status message. The poll message consists of two characters, the address character and the command character. When a Transponder recognizes an address character matching its own, it enters a receive mode and receives the following command characters. It then responds with two response characters that contain alarm input and tamper status information. The command character can cause the Transponder to perform any one of the following three functions: 1. Transmit alarm input status. 2. Change control relay state and transmit input contact status. 3. Perform a self-test and transmit results. Each character is transmitted in standard UART serial bit format.

Figure 5: Address Switch SW1 Location

Data Communication-Electrical The Transponder communication ports use drivers that correspond to the EIA RS-485 specification. This is a high-speed differential voltage line driver. The RS-485 communication scheme is specified to operate reliably over communication distances of up to 4000 feet. Optional RS-485 communication repeaters are available for longer distance communications in the event the Transponder card is located remotely in the field away from the Controller module.

Alarm/Tamper Status Monitoring Transponders have eight DC supervised status monitoring inputs. Each input monitors the status of an external End Of Line (EOL) resistor. If the value of the external circuit resistance increases above or decreases below specified values, an alarm condition is reported when the Transponder is next polled. Dual supervision is featured on points 1-8. Dual supervision allows the reporting of both alarm and tamper status information over a single pair of wires. The alarm and tamper contacts (switches) may be configured for normally open or normally closed operation. Single supervision is also featured on points 1-8. Single supervision allows the monitoring of alarm status information only. The alarm contacts may be configured for normally open or normally closed operation.

Self Test The Controller module is continuously polling the Transponder modules. A complete self-test command is software programmable to occur at predetermined time intervals. The self-test ensures communication between the Transponder, Controller and central monitoring computer. Any interruption of communication immediately causes an alarm. Transmitting a self-test code in the command byte of the poll message and comparing the information received from the Transponder accomplish the self-test function.

Output Control External circuit control is also available via the transponder output relay drivers. SN75067 relay drivers provide maximum output current of 1.0 Amperes. Optional relay kits are available with DPDT relay contacts for higher current output requirements. The transponder module provides relay output contact closures for 8 individual alarm zones.

Transponder Operation On the Transponder module communication port, a pair of wires provides a path for signals sent from the central monitoring computer via the processor Controller card to a Transponder, while another pair of wires provides a different path for signals sent from one Transponder to another Transponder. To poll a specific Transponder, the Controller module must send out serial information in the form of the Transponder address followed by a command word. When a Transponder receives an address and command word-pair, it performs two functions:

1. First, the Transponder compares the received address word against its own address settings, which were set originally by the installer at the time of the initial installation.

2. If the address does not match the Transponder's own address, the

Transponder simply passes the message on to the next Transponder. If the address does match the Transponders own address, the Transponder decodes the command word and performs the function specified. It then responds by transmitting two data words over its communication port. After completing its response, the Transponder reverts back to its receive mode of operation. Provided that all Transponders are operating correctly and that no line fault exists, the Controller module will receive the addressed Transponder status word-pair response at its communication port.

Perimeter Security System

Infinity 2000 PRODUCT MANUAL

Section III: Processor Installation Procedure

Section III: Processor Installation Procedure 3.1 General The primary steps in installing an Integrated Security Corporation intrusion detection system are as follows:

• Mounting the control unit. • Attaching the sensor cable to the fence or concertina along the

detection line. • Mounting the Junction boxes at the beginning and end of each

zone. • Making all electrical connections to the Integrated Security

Corporation processor. The following sections will present procedures for all of these.

3.2 Processor Unit Installation

Overview The Integrated Security Corporation processor is an input controller designed to monitor the state of up to 64 input devices or perimeter zones. It is a microprocessor-based processor combining data processing, memory, communications and field inputs. The processor unit consists of controller cards, transponder cards, power supply and weather unit interface hardware. The processor unit processes field input data and routes status information to the central monitoring computer. The processor unit can also act in a stand-alone capacity to give relay output notification to other site monitoring systems. Relay output status is available for each zone alarm, tamper alarm, communication fail, power fail and a general output relay. The Integrated Security Corporation processor mounts on an indoor wall surface, in an area that meets the unit's environmental specifications (See Specifications). Transponder cards can be field deployable via fiber optic cable and transceivers if needed. Transponder cards, enclosed in weatherproof enclosures can be mounted directly on the fence material along the perimeter.

The following procedures will lead you through the required steps of installing the ISC System processor unit. Each procedure is concerned with only one part of the installation. Read each procedure and examine the accompanying illustration before attempting to do the procedure.

3.3 Processor Electrical Connections WARNING!!! Failure to disconnect power from all interconnected equipment when performing electrical installation may result in electrical shock or equipment damage.

Processor Unit The Integrated Security Corporation processor unit comes assembled in a moisture-proof enclosure that permits it to be mounted either outdoors or indoors. The processor enclosure can be wall or post mounted. The approximate location of the processor unit should have been determined by this point, so that it need only to be physically installed. The processor unit communicates with the central monitoring computer via RS232 interface. The maximum allowable distance between the processor and the central monitoring computer is 100 feet. If greater distance is needed, fiber optic cable, network or wireless communications may be used. The processor unit has four (4) basic components; the Controller card, the Transponder card, the processor power supply and the weather station interface hardware. The controller card is the communication interface between the field processor and the central monitoring computer, the transponder card processes the field input signals from the alarm devices, and the weather station interface hardware digitizes the input signals from the ISC WX-75M weather station for processing by the controller card microprocessor circuitry. Before power is applied to the ISC System processor unit, all electrical connections should be checked for proper installation. The following procedure will lead you through the required steps of electrically installing the Integrated Security Corporation processor unit.

Grounding Due to its low impedance transmission systems the ISC processor unit is not susceptible to noise interference. However, grounding is required at the processor for lightning suppression and in the event 50 or 60 cycle noise may be present at the site. When considering earth ground sources, it is critical to insure that the earth ground source is stable and noise free. An improper or unstable earth ground source can induce noise into the processor unit. This noise may cause the processor to initiate false alarms. A proper earth ground source may usually be obtained by driving a 6 ft. (2.4 m) copper grounding rod into the ground near the processor unit. Use at least a 10 gauge wire to connect the grounding rod to the processor unit chassis ground stud.

* IMPORTANT * _______________________________________ A large difference in potential may exist between the fence ground and the processor unit ground. This difference in ground is generally induced by a local power source (50 or 60 cycle). Multiple grounds will sometimes produce ground currents into the sensor cable shield, thus introducing noise into the system. For this reason, it is necessary that only one ground path be established for the processor and the shield of the sensor cable and the communication lead cable.

_______________________________________ To test for noise resulting from inadequate grounding, simply read the zone input to the transponder card with an oscilloscope for 50 or 60 cycle noise. The signal input to the transponder card should be a steady +2.3 volts DC. The sensor cable ground is obtained at the processor unit chassis ground connection. If excessive noise is present or becomes evident at some time after installation, check the integrity of the sensor cable installation first. In particular, insure that there is no inadvertent ground connection to the sensor cable shield at junction boxes or terminators. The processor unit is generally grounded at its mounting location through a grounding rod. In extremely noisy environments, there may be sufficient energy to produce a capacitive coupling with the sensor cable shield. This may happen

regardless of the precautions taken to ensure a single DC ground return. If such problems arise, it may become necessary to relocate the processor unit ground closer to the protected fence (periodic grounding of the protected fence may also be useful in such situations).

Connecting the AC Power Primary power to an AC powered processor unit is 115 VAC. Operating power is 24 VDC, supplied through a step-down transformer in the processor power supply. AC power connection to the processor unit is made on terminals 1 and 4 of the processor power supply. All power supply connections are made internal to the processor at the factory, in most cases AC power can be supplied by simply plugging in the processor AC power supply cord.

Connecting the Backup Battery The Integrated Security Corporation processor unit has an optional battery backup to allow operation of the unit during primary power failure. The battery backup normally is connected internal to the processor at the factory, however, the following information is provided. WARNING!!! Failure to disconnect power from all interconnected equipment when performing electrical installation may result in electrical shock or equipment damage. Perform the following 5 steps to connect the processor unit backup battery: Step 1. Remove AC power to the processor from the circuit breaker panel. Step 2. Place the battery in the processor cabinet and secure in place. Step 3. Battery leads from the switching power supply will be provided and

pre-installed from the factory. Connect the two 12 volt batteries in series using the + – leads from power supply and the supplied jumper.

Step 5. Restore power to the processor at the circuit breaker panel

Installing Zone Input Cables Before connecting the field input cables to the transponder zone input connections, verify the installation of the sensor cable by performing the Sensor Cable Continuity Test listed in Section 6 – System Test and Checkout, Part 6.3 test number 3. All zone inputs to the transponder card must be supervised with an end-of-the-line resistor. Check the resistance between each pair of wires for a particular zone or alarm device for the presence of the 4.7KΩ terminating resistance. Check the sensor cable resistance between the drain wire and the individual zone inputs. This resistance should be a minimum of 2MΩ. Perform the following 3 steps to install the zone input cables to the processor transponder card: Step 1. In sequence, connect the pair of wires from each of the field

zones or switches to terminal block TB3 zone inputs 1 through 8. Input pair terminal connections are labeled "IN 1" through "IN 8" on the processor transponder card.

Step 2. All input circuits must be supervised with an end-of-the-line

resistor. Ensure that the termination resistors are located close to the security device being monitored or at the last sensor for a zone of perimeter sensor cable. Ensure the termination resistors are secure from unauthorized access.

Step 3. Connect all sensor cable shield drain wires together, and

terminate these conductors to the processor chassis/earth ground stud.

NOTE: All unused inputs for activated zones on the transponder card must be terminated with a 4.7KΩ resistor across the zone input terminals on the transponder card.

Addressing the Transponder Card The transponder card address is dip switch selectable in the event more than one transponder card is used in a processor unit. Each transponder card must be set to an address in the range of 1 through 8. This selection is made by setting switches 1 through 3 on the transponder card DIP switch module SW1. The transponder card addresses are a binary 3 digit address 000 through 111.

Transponder card #1 is connected to perimeter zones 1 through 8 with DIP switch address setting 000, transponder card #2 is connected to zones 9 through 16 with DIP switch address setting 001, transponder card #3 is connected to zones 17 through 24 with DIP switch address setting 010, etc.

Connecting the Central Computer Communication Cable The central monitoring computer communicates with the processor unit via RS-232 communication. Connection is made between the processor controller card connector CN1 and the central monitoring computer serial port. The communication cable is supplied by ISC. Perform the following steps to connect the central monitoring computer to the processor controller card. Note: The maximum distance for RS-232 communication is 75 feet. Step 1. Plug the 9-pin connector of the ISC communication cable into the

serial port of the central monitoring computer. If the central monitoring computer serial port connector is a 25-pin connector, it may be necessary to install a standard 9-pin to 25-pin adapter.

Step 2. Connect the 25-pin RS-232 connector to CN1 input connection

on the processor controller card. Secure both connectors in place with mounting hardware supplied.

WX-75M Weather Station Installation All ISC perimeter detection systems include a weather unit that is used to detect adverse weather conditions. This fully integrated monitoring subsystem detects any environmental changes resulting from wind or precipitation and supplies the necessary data to the processor unit. Based on this continuously updated flow of information, the processor constantly adjusts the sensor operating parameters to minimize the generation of environmentally induced false alarms. To install the weather station electrical inputs to the ISC processor perform the following steps: Step 1. Identify the location where the weather station is to be mounted

from the site diagram provided by ISC. Step 2. Using the mounting coupler supplied by ISC, secure the weather

station to the 1-1/2 inch rigid mast provided at the site. Insure the anemometer is at least 6 feet above the highest point of the building it is affixed to. Ensure no wind blocks or other obstacles are present that would prohibit exposure of this unit to the environment.

Step 3. Route the wire from the weather station into the building then to

the ISC processor enclosure. Use lead cable provided where necessary.

Step 4. Connect the input wires from the WX-75M weather station

anemometer to the terminals labeled "Wind Input" on the processor weather station terminal strip.

Step 5. Connect the weather station precipitation dish input wires to the

"RAIN" and "GND" terminals on the processor weather station terminal strip.

Note: The weather station is usually mounted on the roof of the building housing the processor unit, however, depending on the size and topographical makeup of the perimeter being monitored, the weather station can be mounted remotely in the field along the perimeter fence line.

Alarm Relay Output Connections The processor transponder card has 9 output relays and the controller card has 2 output relays that are used to indicate alarm conditions detected by the processor unit. These relays are normally open relays that close upon an alarm condition being detected. The relays will remain closed until the alarm condition clears, upon which time the relay will reset after approximately 5 seconds. The power fail relay output is designed to operate in a "fail-safe" mode. This means that the relay depends on power being present in the processor unit to be energized. This relay is energized in the normally closed configuration. The relay will open upon power fail to the processor.

Perimeter Security System

Infinity 2000 PRODUCT MANUAL

Section IV: Sensor Cable Installation Procedure

Section IV: Cable Installation Procedure 4.1 Sensor Cable Installation

Introduction This section pertains only to the Integrated Security Corporation sensor cable installation. Prior to installing the sensor cable hardware, site preparations, design and layout must be performed. The security perimeter must be defined and a zone breakdown established. ISC will assist with site layout by customer request.

Requirements for Installers Installers must be trained and certified by Integrated Security Corporation.

Installation Layout A site diagram should be created for the site to be installed, which will depict zone locations and zone numbers. Follow the instructions on the diagram for where to start and stop each zone. Do not walk off more than 100 feet of sensor cable without mounting the sensors to the fence. This will insure minimal stress on the cable.

Chain Link Fence Sensor Cable Installation The following procedure pertains to chain link fence sensor cable installation only. The installation should proceed in the following manner:

Step 1. Determine the best position for the sensor. This position may vary based on the application, fence conditions and construction. Please contact ISC for assistance if required. Step 2. Select the spool for the zone being installed. Anchor the start of

the sensor cable at the beginning of the zone. Make sure the sensor is positioned directly in the center of the fence panel or in an area of the fence panel where the most activity occurs during an attempt to breach the perimeter. Most chain link fences are installed with posts 10ft. apart. The distance between the sensors on the sensor cable is 10ft. 11 in.

Step 3. Reel off 100 feet of sensor cable or approximately ten sensors in

a parallel path along the fence to be secured. Maintain a distance as close to the fence as possible to prevent any unnecessary stress on the cable.

* CAUTION * _________________________________________________________________

Handle the cable carefully! For best operation and long life, cable should not

be knotted, kinked, nicked, or scraped. _________________________________________________________________

Step 4. Leaving the spool on the ground, return to the start of the run and

begin mounting the sensors to the fence panel. Insert the back plate into the sensor body securing holes as shown in the illustration below. Ensure the back plate is positioned so the chain link fence material is between the risers of the back plate. The sensor is in the correct position when the cable is at the bottom of the sensor and you can read the “ISC” logo! (See illustration below).

Step 5. After the sensor body and back plate have been installed on the

fence panel, lightly insert the two (2) securing pins into the sensor body securing holes, as shown in the illustration below.

DO NOT push the pins into the sensor body securing holes at this time.

* NOTE * ________________________________________________________________

Care must be taken in the positioning of the sensor on the fence panel. The sensor should be installed in the area of the fence panel that receives the most activity during an attempt to breach the security perimeter. ________________________________________________________________

Step 6. Once the sensor has been installed on the fence panel and the securing pins lightly inserted into the sensor body securing holes, tighten the sensor body to the fence fabric in the following manner:

Use "Channel Lock" pliers, as shown in the illustration below, to crimp the back plate securely to the sensor body, (if necessary, tape the jaws of the channel lock pliers with electrical tape to prevent scratching the sensor body).

Ensure that the sensor body and back plate are tight enough against the fence fabric to prohibit any movement of the sensor on the fence.

Step 7. While crimping the back plate securely to the sensor body, use a small blade screwdriver to push the securing pins tightly into the sensor body securing holes as shown in the illustration below. The blade of the screwdriver should be small enough to push only the securing pins without touching the sides of the securing holes. The screwdriver blade must push the securing pin only into the body.

Step 8. After pushing the securing pins tightly into the sensor body securing

holes, check to ensure sensor is tight against the fence material. The sensor should not move on the fence fabric.

Step 9. After mounting approximately ten sensors, repeat the above

procedures until the spool is empty or you reach the end of the predetermined run on the diagram provided with the spool(s). You should now have all sensors mounted on the fence for the zone.

Step 10. After crimping all the sensors onto the fence fabric, return to the anchor point to begin ty-wrapping the sensor wire to the fence. Install one ty-wrap on each side of the sensor as close to the sensor body as possible (within 3 inches of sensor). At approximately 15-inch intervals, install ty-wraps working away from the sensor until you reach the post supporting the fence fabric.

* NOTE * ________________________________________________________________

Use UV resistant outdoor rated cable ty-wraps when securing the sensor wire

to the fence material.

__________________________________________________________________

Step 11. At the post area neatly secure any excess sensor wire by creating a loop as shown in the illustration below. Continue ty-wrapping the sensor cable to the fence fabric for the entire length of the zone.

Step 12. At this point you should have all the sensor cable mounted for this particular zone. The sensors should be securely mounted to the fence fabric and the sensor wire ty-wrapped neatly in a straight line as pictured below. The cable loop at the fence post should be neatly ty-wrapped as close to the fence as possible. Cut off the ends of the ty-wraps, and discard appropriately.

Step 13. Should you need to remove a sensor, simply use a wide blade screwdriver to pry the back plate away from the rear of the sensor body. Carefully remove the back plate as pictured below.

4.2 Perimeter Fence Corner Areas Many fence corners include diagonal and/or horizontal stiffeners. This may make the fence fabric near the corner quite rigid, reducing the ability of a single run of sensor cable to detect a climb-over attempt in this area. Therefore, it is a good practice to add an additional sensor cable on each side of the corner post if necessary.

4.3 Slide Gate Installation To provide continuous security across a sliding gate, use the Integrated Security Corporation Wire Transfer Assembly. With this device, the gate may be secured in the closed position. When the gate is opened, the transfer assembly follows the opening of the gate (see figure 1 below).

VEHICLE SLIDING GATE DETAIL1" WEATHER HEAD

ISC

ISCISCISC ISC

ISCISC

SLIDING GATE

COIL CORD BARBED WIRE

GRADE LINE

ISC FENCEMOUNTEDSENSOR

CHAIN LINK FENCEJB-F (5"x3") FENCEMOUNTED ZONETERMINATION BOX

ISC S-10 SENSOR CABLE FENCE MOUNTED w/UV RESISTANT OR STAINLESS STEEL TY-WRAPS

NOT TO SCALE

ISC ISC

ISC ISC ISC

ISC ISC

Figure 1: ISC Slide Gate Transfer Assembly

4.4 Concertina/Barbed Tape Sensor Cable Installation Step 1. Select correct spool for zone being installed. Step 2. Anchor the start of the sensor cable to the beginning of the run.

Make sure the first sensor is within five (5) feet of the start of the coil being protected.

Step 3. Reel off 100 feet of sensor cable or approximately ten sensors in a

parallel path along the media to be secured. Maintain a distance as close to the fence as possible to prevent any unnecessary stress on the cable.

Step 4. Leaving the spool on the ground, return to the anchor point and

begin to mount the sensor body to the concertina coil. Use the back plate and securing pins provided by ISC. Insure that you leave a shallow loop in the cable for easy attachment when the sensor line is ty-wrapped to the concertina coil. When possible, attach the sensor in a vertical position at approximately the 10 o'clock or 2 o'clock position on the coil. ISC will supply a diagram for each site configuration detailing where to position sensors. Remember to stay "redundant" during this procedure. System sensitivity will be easier to set or adjust if all sensors act similarly.

Step 5. Using "Channel Lock" pliers, (tape jaws with electrical tape to

prevent scratching sensor body) crimp the back plate securely to sensor body. Make sure back plate is tight enough to prohibit any movement of the sensor on the coil. Insert the securing pins into the sensor body securing holes while tightly crimping the back plate to the sensor body.

Step 6. After crimping all sensors onto the concertina coil, return to

anchor point and begin ty-wrapping the sensor wire to the coil. Install one ty-wrap directly next to the sensor at the nearest intersecting strand of the coil. Always ty-wrap between the barbs and not directly on top of them. With long nose pliers bend back and away any barbs, which may possibly spear or cut the sensor wire. Ty-wrap the sensor wire to every intersecting strand, working away form the sensor body until you reach midway between sensors. If any excess cable is found after ty-wrapping is complete, simply secure the excess directly onto the coil to prevent abrasion.

4.5 Other Media Sensor Cable Installation Any media such as brick, aluminum, welded mesh, wood, concrete, wrought iron or other physically protective barriers, which generate vibration when scaled, can be monitored by the ISC S-10 sensor cable. The specific installation instructions for these applications are available upon request.

4.6 Termination Devices Before connecting the field input cables to the transponder zone input connections and terminating zones with the end of line resistors, verify the installation of the sensor cable by performing the Sensor Cable Discontinuity Test listed in Section 6 – System Test and Checkout, Part 6.3 test number 2. All Integrated Security Corporation zone inputs require termination resistors. The termination resistor can be mounted in a standard tamper resistant, moisture-proof enclosure, which is ty-wrapped directly to the fence perimeter. If there is an excess of sensor cable at the terminator, do not coil the cable. Such a coil can provide hypersensitive detection, with resultant nuisance alarms. Either cut the cable to the proper length, leaving a moisture drip loop outside the termination device enclosure or terminate the zone at the correct length inside the last sensor body for that particular zone.

4.7 Junction Devices The junction box can be any tamper resistant, moisture proof splicing-kit/junction that is used to splice the sensor cable or to connect the sensor cable to the insensitive communication feed cable. It may also be used in splicing or repairing the sensor cable and in gate applications.

Perimeter Security System

Infinity 2000 PRODUCT MANUAL

Section V: Engineering Specifications

Section V: Engineering Specification ISC Infinity 2000

PART 1: General 5.1.1 Introduction Provide and install a perimeter security system as herein specified for the purpose of detecting entry into a designated security area. The perimeter security system is to be installed complete with appropriate controls, wiring and mounting hardware per the manufacturer’s recommendations. All installation work shall be accomplished in a professional manner by manufacturer trained installers.

5.1.2 System Description The perimeter security system shall be an electronic shock vibration type system as manufactured by Integrated Security Corporation of Walled Lake, Michigan. The system shall incorporate a meteorological device. This fully integrated monitoring sub-system shall detect environmental changes resulting from wind and precipitation and supply the necessary "real-time" data to the system processor. Based on this continuously updated flow of information the system processor shall constantly adjust sensor operating parameters to minimize the generation of environmentally induced false alarms. This specification is to provide an operating perimeter security system complete with central monitoring computer, processor, controlled weather notification device, sensor cable, accessories and such other peripheral equipment as the site may require. The perimeter security system shall detect perimeter intrusion attempts and indicate alarms on a color graphic display on a central monitoring computer with flashing alarm zones, custom digital audio annunciation of alarms, command and control capabilities for CCTV cameras via serial port communication, on screen video of alarmed zones and a hard copy printout of alarm activity on the system printer. The system shall provide relay outputs for each zone, power/communication failure and tamper from the system processor to other site monitoring systems (if required).

The field sensors shall be installed on the fence material, concertina, razor ribbon, barbed wire or other such media as required. The sensor cable shall be mounted on the fence material, concertina, razor ribbon, barbed wire, or other such media using UV resistant cable ties. The length of a detection zone is variable and depends to a large degree on the need for a certain section of perimeter to require extra accuracy in locating an attempted intrusion. The ISC S-10 sensor cable shall come pre-assembled with shock vibration sensors installed at regular intervals. Sensitivity shall be software adjustable individually by zone from the central computer keyboard. No field sensitivity adjustments shall be required. The system shall have separate adjustable wind and precipitation compensation settings for each zone from the central computer keyboard. No field adjustments required. All sensor cable shall be UV resistant to sunlight and rated for direct burial cable. All sensors shall come encased in UV resistant high impact plastic with gold plated internal contact points. All sensor cables shall be fully supervised and an alarm shall be generated if any cable is cut, shorted to ground or each other. A tamper alarm shall be generated if the processor enclosures are opened via enclosure tamper switches. The processor unit shall include controller and transponder modules and shall contain all required electronics, standby battery, power supply and other accessories as necessary. The processor unit shall contain power on indicator with power-reset switch.

PART 2: Products 2.1 Central Monitoring Computer System Host computer: Pentium Processor E5300 (2.60 GHZ,2M,800MHZ FSB) with 2GB DDR2 Non ECC SDRAM, Integrated Video, Intel GMA 4500, 80 GB SATA Hard Drive/8MB Data burst Cache, 8X DVD-ROM and color VGA Flat screen Monitor. The software shall be capable of constantly monitoring the site for intrusions regardless of the operation being performed within the system software. The system software will provide a custom VGA site map with flashing alarm zones, custom digital audio messages for each alarm and on screen video of alarmed zones. The central monitoring computer shall have "data log" retention of alarm activity on the computer hard drive as well as a hard copy printout of alarm activity on the system printer. The site monitoring system shall provide multi-level password access and have software adjustable sensitivity settings for each zone from the central monitoring computer keyboard, no field adjustments required. The site monitoring system shall provide software adjustable wind and

precipitation compensation settings for each zone individually from the central computer keyboard, no field adjustments required. The site monitoring system shall include software adjustable event/condition zoning for each zone or software adjustable dual domain zoning for each zone from the central computer keyboard. Event/condition zoning will allow individual gate zones to be shunted when related activities occur (such as a valid card read from an access control system) during a software programmable "Time Window". The Dual Domain programming shall allow an alarm to be generated only when multiple related activities occur during a software programmable "Time Window”. The site monitoring system shall include manual keyboard access to instantaneous spot weather conditions including current wind speed and precipitation values. Automatic logging of wind speed and precipitation values to the site monitoring system database will take place at software programmable regular intervals. The site monitoring system shall include logged wind and precipitation values taken in real time when an alarm occurs.

5.2.2 System Processor The system processor shall monitor electronic signals from perimeter sensors and continually analyze and evaluate these signals. The processor shall also analyze inputs from a meteorological device and dynamically calibrate the system for each zone individually during adverse weather conditions to reduce the possibility of weather induced false alarms. The processor shall support relay outputs for each zone and relay outputs for power/communication failure, tamper and one general output relay. The processor shall facilitate a battery backup capable of supplying 24 VDC at 500 ma. The battery will automatically recharge when 120 VAC power is restored. The processor shall require no field calibration and or routine maintenance and adjustment. The processor shall indicate alarms to a central monitoring computer via RS-232 communication.

5.2.3 Sensors And Sensor Cable The sensor device shall be shock vibration type, weather resistant and UV protected. The sensor device shall detect in the X, Y and Z axis. The sensor device shall be capable of operating at -55 degree to +155 degree C. All internal contact points shall be gold plated to MIL Spec #MIL-G-45204-B Type 2 Grade C. The sensors shall be weather resistant and come pre-assembled on a multi-conductor cable. The sensor cable shall be an overall foil wrapped UV resistant PVC jacketed cable suitable for direct burial and EMI/RFI protected. Fence sensors shall require no field calibration and or routine maintenance and adjustment.

5.2.4 Meteorological Assembly The meteorological assembly shall be capable of detecting wind speed and precipitation intensity. The meteorological device shall be a fully integrated monitoring sub-system that detects environmental changes resulting from wind or precipitation and supplies the necessary data to the system processor. The output signals from this device shall be transmitted through a communication cable to the processor, which in turn automatically calibrates the system's thresholds for each zone individually according to the weather conditions. The processor shall constantly adjust sensor-operating parameters to minimize the generation of environmentally induced false alarms. Through password control the system operator shall be able to adjust wind and precipitation compensation values separately for each zone individually from the central monitoring computer keyboard.

5.2.5 General a) Zone Length- Recommended 60 Ft. to 400 Ft. With the ability to be

installed on fences of chain link or welded mesh construction, concertina, barbed wire, razor ribbon and all types of gates.

b) Electrical Components - Electrical construction shall be with high reliability and wide temperature range components.

c) Environmental Conditions - The perimeter detection system shall be capable of operating to specification in fog, rain, snow or other adverse weather conditions.

d) Power Requirements - 110/220 VAC; 50/60 Hz, backup battery - 24VDC. e) Battery Charger - Integral to system processor. f) Relay Outputs - Alarm for each zone, tamper, power/communication

failure and one general output relay. g) Supervision - Opens, shorts, grounds; change in sensor line voltage. h) Sensitivity Control - Fully software programmable from the central

computer keyboard. No field adjustments required. i) Indicators - Power indicator. j) Lightning Arrestor Package - Semi conductor tranzsorbs, effective

against both high energy and fast rise transients.

Perimeter Security System

Infinity 2000 “The Smart Wall” PRODUCT DATA

Section VI: System Test and Checkout

Section VI: System Test and Checkout 6.1 Introduction This section pertains only to the ISC System sensor cable and processor checkout. Prior to system checkout the sensor cable and processor enclosure should have already been installed (See Sections 3 and 4 for installation instructions). The security perimeter should already have been defined and a zone breakdown established. See the drawings supplied by ISC for each site installation.

6.2 Requirements for Installers Technicians must be trained and certified by Integrated Security Corporation.

6.3 Sensor Cable Tests To determine that the sensor cable is operationally ready, perform the following procedures: 1) Visual Inspection: The sensor cable is designed to withstand years of

weather and environmental conditions. It is important, however, that you perform a visual inspection of the fence-mounted cable to verify proper installation. During this inspection verify the following:

• Cable is taut

• All cable ties are intact • End of the line resistor and any splices are properly sealed • Cable is free from cuts or abrasions in the outer insulation jacket

2) Discontinuity Test: During the following test, ensure the opposite end of

the cable under test does not have conductors making contact with each other. Prior to terminating zones and connecting zone inputs to the Transponder CCA, perform the following discontinuity tests with an ohmmeter capable of reading up to 75MΩ:

Test Point 1 Test Point 2 Normal Reading

A) Red Center Conductor Drain Wire 45MΩ to 75MΩ B) White Center Conductor Drain Wire 45MΩ to 75MΩ C) Green Center Conductor Drain Wire 45MΩ to 75MΩ D) Yellow Center Conductor Drain Wire 45MΩ to 75MΩ E) Blue Center Conductor Drain Wire 45MΩ to 75MΩ F) Orange Center Conductor Drain Wire 45MΩ to 75MΩ G) Violet Center Conductor Drain Wire 45MΩ to 75MΩ H) Brown Center Conductor Drain Wire 45MΩ to 75MΩ I) Black Center Conductor Drain Wire 45MΩ to 75MΩ

J) Red Center Conductor All Other Center Conductors 45MΩ to 75MΩ K) White Center Conductor All Other Center Conductors 45MΩ to 75MΩ L) Green Center Conductor All Other Center Conductors 45MΩ to 75MΩ M) Yellow Center Conductor All Other Center Conductors 45MΩ to 75MΩ N) Blue Center Conductor All Other Center Conductors 45MΩ to 75MΩ O) Orange Center Conductor All Other Center Conductors 45MΩ to 75MΩ P) Violet Center Conductor All Other Center Conductors 45MΩ to 75MΩ Q) Brown Center Conductor All Other Center Conductors 45MΩ to 75MΩ R) Black Center Conductor All Other Center Conductors 45MΩ to 75MΩ

If readings are not within the prescribed limits, probable causes are:

! A short between the center conductors and the shield ! A short between center conductors

3) Continuity Test: Zones are terminated with an end-of-the-line resistor

between the corresponding color center conductor for that zone and the common black return center conductor. This resistor value is 4.7KΩ. Each zone has this resistor installed in a junction box at the end of the zone. With a multi-meter, perform the following continuity tests for each cable run prior to connecting the zone inputs to the Transponder CCA:

Test Point 1 Test Point 2 Normal Reading

A) Red Center Conductor Black Common Return 4.7KΩ B) White Center Conductor Black Common Return 4.7KΩ C) Green Center Conductor Black Common Return 4.7KΩ D) Yellow Center Conductor Black Common Return 4.7KΩ E) Blue Center Conductor Black Common Return 4.7KΩ F) Orange Center Conductor Black Common Return 4.7KΩ G) Violet Center Conductor Black Common Return 4.7KΩ H) Brown Center Conductor Black Common Return 4.7KΩ

Infinity 2000 Testing Procedures Because the Infinity 2000 System is totally supervised, most problems that affect operation of the Infinity 2000 system generate an immediate alarm. Examples include an open circuit alarm is generated if the cable is cut or otherwise disconnected. A communication alarm will be generated if a transponder or controller card is not working. Therefore, the required maintenance and testing is minimal. Regular Basis Fence Test 3 fence panels in each zone for alarms by simulated climb test and 3 tap test with a large screwdriver in one or more corners of the fence panel. If an alarm is not generated, increase the sensitivity and re-test. Walk the fence line to visually inspect all cable, sensors, junction boxes and cable ties for wear and to verify that all are securely connected to the fence. Annual Processor Verify that a tamper alarm is generated when the cover is opened. Turn off the AC power in the processor to verify that the power is switched to back-up battery power. The AC LED on the blue power supply board will go off while the DC LED will remain on. Turn the AC power back on. Weather Station Check the wind speed on the software and compare it to actual conditions to verify that the weather station is operating properly.

NOTES